Next Generation Sequencing Data Analysis Services

Bioinformatics for miRNA: From Raw Reads to Functional Networks Our miRNA-Seq analysis platform is built on a foundation of scientific rigor and the latest trends in miRNomics. We address the unique challenges of small RNA sequencing—such as adapter contamination and multi-mapping reads—through a multi-stage, optimized workflow: Stringent QC & Pre-processing: Automated adapter trimming and length distribution analysis to ensure small RNA enrichment. Comprehensive Annotation: Alignment against miRBase and MirGeneDB, with cross-referencing against rRNA, tRNA, and snoRNA to filter out non-target small RNAs. Novel miRNA Discovery: Heuristic folding algorithms (e.g., miRDeep2) to identify uncharacterized hairpins and species-specific regulatory elements. IsomiR Profiling: Single-base resolution analysis to detect 5’ and 3’ modifications (isomiRs) that influence targeting efficiency. Functional Interpretation: Integration of target prediction (TargetScan/miRanda) with GO/KEGG enrichment and miRNA-mRNA co-expression networks to visualize biological impact.

We provide comprehensive single-cell RNA sequencing (scRNA-seq) data analysis services using advanced bioinformatics pipelines and state-of-the-art computational tools. Our workflow includes raw data processing, quality control, normalization, batch correction, dimensionality reduction, clustering, differential gene expression analysis, cell type annotation, trajectory inference, and pathway enrichment analysis. Leveraging platforms such as Seurat, Scanpy, Monocle, and integrative multi-omics frameworks, we uncover cellular heterogeneity, rare cell populations, and dynamic transcriptional states with high precision. Our analysis supports applications in cancer research, immunology, stem cell biology, developmental biology, and precision medicine. We deliver publication-ready visualizations, reproducible workflows, and biologically meaningful interpretations to accelerate translational and clinical research outcomes.

We offer end-to-end Microarray Data Analysis services powered by robust bioinformatics workflows and advanced statistical modeling. Our pipeline includes raw data preprocessing, background correction, normalization (RMA/quantile), quality assessment, batch effect correction, differential gene expression analysis, functional enrichment (GO/KEGG), pathway analysis, and network-based interpretation. Using industry-standard tools such as Bioconductor, LIMMA, and integrative multi-omics approaches, we ensure high-confidence identification of biomarkers, gene signatures, and regulatory pathways. Our services support research in oncology, immunology, pharmacogenomics, toxicogenomics, and precision medicine. We provide publication-ready figures, reproducible analysis reports, and biologically meaningful insights to transform high-throughput gene expression data into actionable scientific knowledge.

We provide advanced CRISPR/Cas9 genome editing design and bioinformatics analysis services to support precise and efficient gene modification studies. Our expertise includes sgRNA design, off-target prediction, PAM site identification, on-target efficiency scoring, and genome-wide specificity assessment using validated computational algorithms and reference genome databases. Our workflow integrates in silico validation, variant annotation, functional impact prediction, and post-editing NGS data analysis to confirm editing efficiency and minimize off-target effects. We support applications in functional genomics, gene knockout/knock-in studies, disease modeling, agricultural biotechnology, and translational research. By combining cutting-edge genome editing strategies with reproducible bioinformatics pipelines, we deliver scientifically rigorous, publication-ready results that accelerate precision medicine and next-generation genetic research.

We provide comprehensive ChIP-Seq (Chromatin Immunoprecipitation Sequencing) Data Analysis services to identify genome-wide protein–DNA interactions and epigenetic regulatory landscapes. Our bioinformatics workflow includes raw data quality control, read alignment, peak calling, normalization, differential binding analysis, motif discovery, annotation of regulatory regions, and integrative pathway analysis. Using industry-standard tools such as Bowtie2, BWA, MACS2, HOMER, and deepTools, we ensure accurate detection of transcription factor binding sites, histone modifications, and chromatin accessibility patterns. Our services support research in epigenetics, cancer biology, developmental biology, and transcriptional regulation. We deliver reproducible pipelines, high-resolution visualizations, genome browser tracks, and publication-ready reports to translate high-throughput sequencing data into meaningful biological insights.

We offer comprehensive Methyl-Seq (DNA Methylation Sequencing) Data Analysis services to decode genome-wide epigenetic modifications with high accuracy and biological relevance. Our bioinformatics workflow includes quality control, adapter trimming, bisulfite read alignment, methylation calling, differential methylation analysis (DMRs/DMPs), annotation of CpG islands, and integrative pathway enrichment. Using advanced tools such as Bismark, BS-Seeker, DSS, methylKit, and integrative multi-omics frameworks, we identify epigenetic biomarkers, regulatory regions, and disease-associated methylation signatures. Our services support research in cancer epigenetics, developmental biology, aging, immunology, and precision medicine. We deliver reproducible pipelines, high-resolution methylation profiles, publication-ready visualizations, and biologically meaningful interpretations to transform epigenomic data into actionable scientific insights.

We provide advanced Metagenomics Data Analysis services to characterize microbial communities from environmental, clinical, and industrial samples using high-throughput sequencing data. Our bioinformatics workflow includes raw data quality control, host read removal, taxonomic profiling, alpha and beta diversity analysis, functional annotation, metabolic pathway reconstruction, and comparative microbiome studies. Leveraging state-of-the-art tools such as QIIME2, MetaPhlAn, Kraken2, HUMAnN, and genome assembly frameworks, we enable precise identification of microbial composition, strain-level variation, and functional potential. Our services support research in microbiome science, infectious diseases, environmental genomics, agriculture, and precision health. We deliver reproducible pipelines, interactive visualizations, and publication-ready reports to translate complex microbiome datasets into actionable biological and translational insights.

We provide comprehensive Whole Genome De Novo Assembly Analysis services to reconstruct high-quality genomes without reliance on reference sequences. Our bioinformatics workflow includes raw read quality control, error correction, short- and long-read assembly, hybrid assembly strategies, scaffolding, gap filling, polishing, and assembly quality assessment (N50, BUSCO, QUAST). Utilizing advanced assemblers such as SPAdes, Canu, Flye, and hybrid assembly pipelines, we generate accurate and contiguous genome assemblies for bacteria, fungi, plants, and complex eukaryotic organisms. Our services also include genome annotation, repeat analysis, variant detection, and comparative genomics. We deliver reproducible workflows, comprehensive assembly reports, and publication-ready results to support genomics research, evolutionary studies, pathogen surveillance, and precision biotechnology applications.